Boosting With Sepic

The International Journal Of Engineering And Science (IJES)
|| Volume || 3 || Issue || 4 || Pages || 14-15 || 2014 ||
ISSN (e): 2319 – 1813 ISSN (p): 2319 – 1805
Boosting With Sepic
1,
Sudagar.M, 2, M. Sivaram Kumar, M.E,
1,
In partial fulfillment for the award of the degree of MASTER OF ENGINEERING in POWER ELECTRONICS
AND DRIVES, KARPAGAM UNIVRSITY, coimbatore-21,
2,
Assistant Professor, Department of Electrcal and Electronics Engineering, KARPAGAM UNIVERSITY,
coimbatore-21.
------------------------------------------------------ABSTRACT----------------------------------------------------
On trying to reach out a simulation model of a particular voltage and current as an output of sepic
which uses a current source. This procedure may be checked, modified, and used to charge up a battery of
relevant kind from a solar panel.
KEYWORDS: simulation model, sepic, voltage, current, current source, charge up, battery, and solar panel.
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Date of Submission: 10 April 2014 Date of Publication: 25 April 2014
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I. INTRODUCTION:
This paper explains about an idea of utilization of a non-conventional energy source. From the work
tried to be done in this paper may help its reader to try out to charge up a rechargeable battery of a relevant kind
after being having a detailed hardware understanding of utilizing solar panels.
Literature Survey: A MATLAB generated waveform, of a particular voltage and current as an output of sepic
which used a current source, carried out earlier uses some of its component values beyond its availability, led to
try out a work to obtain a similar result with available components as maximum as possible.
Research Elaborations:
The sepic may have a current source. It may be given in figure 1.1.
Rs = 70.588 Ω
R2 = 23.529 Ω, 100W
Rb = 3 Ω, 25W
Rx = 100 Ω, 1KW
L1 = 6417.112 µH, 5A
L2 = 6417.112 µH, 5A
C1 = 1000 µF, 25V
C2 = 1000 µF, 25V
C3 = (1000 µF, 25V) * 100
Mosfet – IRF 840
Diode – IN 4007
Fig 1.1: Circuit of sepic
Output Waveforms:
The output voltage and current wave form generated at Rx may be given in figure 1.2.
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Boostig With Sepic
Fig.1.2: Output Voltage and Current Wave forms
The pulse wave form may be given in figure 1.3.
Fig.1.3: Firing pulse given to sepic
Result and Discussion:
A 5V, 5600mAh (Li-ion) rechargeable battery may be tried to be charged (1/100 th of the rated current is output
of this sepic), may be understood from the MATLAB generated waveform after being having a detailed
hardware understanding of utilizing solar panels. As the circuit uses sepic, it may be replaced by zeta to try out
to obtain a similar output.
Conclusion:
This paper opens up a way to obtain a particular result. This paper, only helps its reader for a better
understanding, to try out a work of a similar kind.
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